Abstract: A method of making a folded micro-wire substrate structure includes providing a transparent flexible substrate having a first side and a second side opposed to the first side. The flexible substrate has a first portion and a second portion adjacent to the first portion of the flexible substrate. One or more electrical conductors and one or more electrical components are formed on or in the flexible substrate. At least one optical element is formed on or in the flexible substrate in the second portion. The flexible substrate is folded with a first fold between the first and second portions so that the first portion is aligned with the second portion in a perpendicular direction and the optical element directs light to or from the electrical component.

Abstract: A method of making a folded micro-wire substrate structure includes providing a flexible substrate and first, second, and third portions. One or more electrical conductors are formed on or in the flexible substrate. The flexible substrate is folded with a first fold between the first and second portions so that the first portion is located adjacent to the second portion in a perpendicular direction. The flexible substrate is folded with at least a second fold between the second and third portions so that the second side is between the second portion and the third portion in the perpendicular direction. The folded flexible substrate is secured to form the folded micro-wire substrate structure.

Abstract: A method of making a micro-wire circuit structure adapted for wrapping includes providing a display and a flexible substrate. The flexible substrate includes a plurality of electrically conductive micro-wires on, in, or adjacent to a common side of the flexible substrate and forming micro-wire electrodes in a touch portion of the flexible substrate. One or more electrical circuits is located on or in a circuit portion of the flexible substrate and one or more micro-wires electrically connects the one or more electrical circuits to corresponding micro-wire electrodes. The flexible substrate is located in relation to the display with the touch portion located adjacent to a display viewing side, the circuit portion located adjacent to a display back side, and an edge portion of the flexible substrate wrapping around a display edge from the display viewing side to the display back side.

Abstract: A folded micro-wire substrate structure includes a transparent folded flexible substrate having a first side and a second side opposed to the first side. The flexible substrate has a first portion and a second portion adjacent to the first portion of the flexible substrate. The flexible substrate has at least a first fold between the first and second portions so that the first portion is aligned with the second portion in a perpendicular direction. One or more electrical conductors is located in or on the flexible substrate, at least one electrical component is located on or in the flexible substrate in the first portion. At least one optical element is located on or in the flexible substrate in the second portion located so that the optical element directs light to or from the electrical component.

Abstract: A method of making a folded micro-wire substrate structure includes providing a flexible substrate and first, second, and third portions. One or more electrical conductors are formed on or in the flexible substrate. The flexible substrate is folded with a first fold between the first and second portions so that the first portion is located adjacent to the second portion in a perpendicular direction. The flexible substrate is folded with at least a second fold between the second and third portions so that the second side is between the second portion and the third portion in the perpendicular direction. The folded flexible substrate is secured to form the folded micro-wire substrate structure.

Abstract: A folded micro-wire substrate structure includes a folded flexible substrate having a first side and a second side opposed to the first side. The flexible substrate has a first portion, a second portion adjacent to the first portion, and a third portion adjacent to the second portion so that the second portion is between the first and third portions of the flexible substrate. The flexible substrate has at least a first fold between the first and second portions so that the first portion is adjacent to the second portion in a perpendicular direction. The flexible substrate has at least a second fold between the second and third portions so that the second side is between the second and third portions in the perpendicular direction and one or more electrical conductors are located in or on the flexible substrate.

Abstract: A method of making a folded micro-wire substrate structure includes providing a transparent flexible substrate having a first side and a second side opposed to the first side. The flexible substrate has a first portion and a second portion adjacent to the first portion of the flexible substrate. One or more electrical conductors and one or more electrical components are formed on or in the flexible substrate. At least one optical element is formed on or in the flexible substrate in the second portion. The flexible substrate is folded with a first fold between the first and second portions so that the first portion is aligned with the second portion in a perpendicular direction and the optical element directs light to or from the electrical component.

Abstract: A folded micro-wire substrate structure includes a transparent folded flexible substrate having a first side and a second side opposed to the first side. The flexible substrate has a first portion and a second portion adjacent to the first portion of the flexible substrate. The flexible substrate has at least a first fold between the first and second portions so that the first portion is aligned with the second portion in a perpendicular direction. One or more electrical conductors is located in or on the flexible substrate, at least one electrical component is located on or in the flexible substrate in the first portion. At least one optical element is located on or in the flexible substrate in the second portion located so that the optical element directs light to or from the electrical component.

Abstract: A method of making a micro-wire circuit structure adapted for wrapping includes providing a display and a flexible substrate. The flexible substrate includes a plurality of electrically conductive micro-wires on, in, or adjacent to a common side of the flexible substrate and forming micro-wire electrodes in a touch portion of the flexible substrate. One or more electrical circuits is located on or in a circuit portion of the flexible substrate and one or more micro-wires electrically connects the one or more electrical circuits to corresponding micro-wire electrodes. The flexible substrate is located in relation to the display with the touch portion located adjacent to a display viewing side, the circuit portion located adjacent to a display back side, and an edge portion of the flexible substrate wrapping around a display edge from the display viewing side to the display back side.

Abstract: A micro-wire circuit structure adapted for wrapping includes a display and a flexible substrate. The flexible substrate includes a plurality of electrically conductive micro-wires formed on, in, or adjacent to a common side of the flexible substrate. One or more electrical circuits is located on or in a circuit portion of the flexible substrate and electrically connect to corresponding micro-wire electrodes in a touch portion of the flexible substrate. The flexible substrate is located in relation to the display with the touch portion located adjacent to a display viewing side, the circuit portion located adjacent to a display back side, and an edge portion of the flexible substrate wrapping around a display edge side from the display viewing side to the display back side.

Abstract: An acoustic air impingement drying system is provided for drying a material. An inlet chamber receives air from an airflow source provides air at a supply flow rate. A plurality of acoustic resonant chambers are provided, each having an inlet slot that receives air from the inlet chamber and an outlet slot that directs air onto the material, wherein the acoustic resonant chambers impart acoustic energy to the transiting air, the outlet slots being oriented at an oblique angle relative to the width dimension of the pneumatic transducer unit. A plurality of exhaust air channels interspersed between the outlet slots remove the air directed onto the material by the acoustic resonant chambers. A blower pulls air through the exhaust air channels at an exhaust flow rate.

Abstract: A method of printing an image on a receiver includes receiving image data for the image. A processor automatically produces data for a polymer pattern and a salt pattern using the image data. A polymer is deposited on the receiver according to the polymer pattern using a polymer-deposition unit. A salt is deposited on the receiver according to the salt pattern using a salt-deposition unit different from the polymer-deposition unit. Liquid ink is deposited on the receiver according to the image data using an inkjet print engine, and at least some of the ink is deposited over the deposited polymer or the deposited salt.

Abstract: An inkjet printing system, comprising: one or more inkjet printheads for printing drops of ink onto a receiver medium, and an acoustic air impingement drying system positioned in proximity to at least one of the inkjet printheads. The acoustic air impingement drying system includes: an airflow source providing a supply flow rate; an acoustic resonant chamber having an inlet slot that receives air from the airflow source and an outlet slot that directs air onto the receiver medium; an exhaust air channel for removing the air directed onto the receiver medium by the acoustic resonant chamber; a blower for pulling air through the exhaust air channel at an exhaust flow rate; and a blower controller that controls the supply flow rate and the exhaust flow rate, wherein the exhaust flow rate is controlled to match the supply flow rate to within 1%, or to exceed the supply flow rate.

Abstract: A method of printing and embossing a receiver is disclosed. The method includes depositing an embossing pattern of embossing particles on the receiver, the embossing pattern having an embossing-pattern thickness corresponding to a fixed stack height of at least 30% of the thickness of the receiver, wherein the embossing particles having average diameters greater than the average diameters of the toner particles of the image toner; pressing the receiver between a hard nip roller and a compliant nip roller, the pressure selected so that with a large enough load so that the embossing pattern permanently deforms the receiver; depositing a pattern of image toner on a first side of the receiver, the image toner including toner particles; and fixing the pattern of image toner onto the receiver.

Abstract: A method of printing and embossing a receiver having first and second sides and having a thickness is disclosed. The method includes depositing a pattern of image toner on a first side of a receiver, the image toner including toner particles; fixing the pattern of image toner onto the receiver; depositing an embossing pattern of embossing particles on a side of the receiver, the embossing pattern having an embossing-pattern thickness corresponding to a fixed stack height of at least 30% of the thickness of the receiver, wherein the embossing particles have average diameters greater than the average diameters of the toner particles of the image toner; and pressing the receiver between a hard nip roller and a compliant nip roller, the pressure being selected so that the embossing pattern permanently deforms the receiver.

Abstract: A device for embossing a receiver is disclosed. The device includes a means for depositing an embossing pattern of embossing particles means to press the receiver of receiver between a hard nip roller and a compliant nip roller, the pressure selected so that with a large enough load so that the embossing pattern permanently deforms the receiver; wherein, the embossing pattern consists of a digitally created pattern of embossing toner particles having an embossing-pattern thickness corresponding to a fixed stack height of at least 30% of the thickness of the receiver.

Abstract: A method of printing and embossing a receiver is disclosed. The method includes depositing a pattern of image toner on a side of an image bearing receiver, the image toner including toner particles; fixing the pattern of image toner onto the receiver; depositing an embossing pattern of embossing particles on a face of an embossing sheet or web, the embossing pattern having an embossing-pattern thickness corresponding to a fixed stack height of at least 30% of the thickness of the receiver. The embossed particles have an average diameter greater than diameters of the toner particles. Pressing the image bearing receiver and the embossing sheet or web together in a compliant nip, the first side of the receiver facing the face of the embossing sheet or web, the pressure selected so that with a large enough load so that the embossing pattern permanently deforms the receiver.

Abstract: Printing methods are provided. In one method, printing an inkjet image using a liquid hydrophilic inkjet ink onto a surface of a semi-absorbent recording medium generating a toner image having toner particles arranged conforming to the inkjet image and transferring the toner image onto the recording medium where an unabsorbed volume of the inkjet ink is present on the recording medium. The toner particles manage unabsorbed volumes of the inkjet ink to protect the recording medium from image artifacts that can be created by an unabsorbed volume of the inkjet ink on the surface without a liquid management toner image.

Abstract: Methods for operating a printing system are provided. In one method, an inkjet image is printed on a receiver using a hydrophilic ink and an image of the receiver is captured after predetermined period of absorption. Local areas of the image of the inkjet print that have reached a threshold level of non-uniform distortion and where additional ink remains for absorption are identified. A distortion estimate is determined for distortion of the receiver at a time when a second image will be printed on the receiver based upon information from the identified areas. A second print image is printed based on the distortion estimate; and, the second image is printed.

Abstract: A method for forming a tactile printed image on a receiver medium using an electrographic printer, comprising forming a sequence of toner particle images on one or more primary imaging members, the sequence of toner particle images including a plurality of annular shapes having associated inner and outer sizes. The inner and outer sizes of the annular shapes varying in a monotonic sequence, such that when the sequence of toner particle images are transferred in register onto the receiver medium the annular shapes are substantially concentric and overlapping, thereby forming a tactile image feature having a hollow core; which is then fixed to permanently attach the transferred toner particle images to the receiver medium.